3. DOME Copilot
PDF in, structured draft DOME report out — in about two minutes. Then a human reviews it.
Overview
Questions:
- Why does DOME curation need accelerating at all?
- What does DOME Copilot actually do, and what model is behind it?
- How good are its annotations compared to expert human curation?
- Where does the human stay in the loop, and why is that not negotiable?
Learning Objectives
By the end of this chapter, you will be able to:
- Explain the curation bottleneck that motivates automated DOME annotation
- Describe the Copilot pipeline from PDF submission to downloadable JSON
- Interpret the reported benchmark results, including their limits
- Identify which DOME fields need the most careful human checking
Time: 10 minutes
The bottleneck
Manual DOME annotation is careful work: a curator reads the paper, hunts through supplementary material and fills 21 fields — typically 30 to 90 minutes per publication, and longer for an unfamiliar subfield. Meanwhile the AI/ML life-science literature grows faster every year: of the candidate articles identified for the DOME Registry, only a few hundred have been annotated manually. Expert curation alone cannot keep pace with the literature.
What DOME Copilot does
DOME Copilot extracts structured reports of AI methods using a large language model to help interpret manuscripts 1. You give it a publication PDF; it returns a draft DOME annotation as structured JSON, ready for human refinement and deposition in the DOME Registry.
Under the hood
| Model | Mistral Small 3.1 24B Instruct (2503.10) — an intermediate-sized LLM |
| Why that model | Chosen to deliver results at speed while remaining highly capable at text summarisation and structuring — the trade-off that makes corpus-scale annotation affordable |
| Throughput | ~2 minutes per annotation from PDF submission, varying with document size |
| Benchmark | n = 222 publications (Dataset A) |
| Prompt refinement | System prompts improved from v0 to v2 through expert curator observation on a subset of n = 30 |
| Agreement with humans | BERTScore against human annotations mostly falls in the 0.35–0.50 interquartile range (1.0 = identical semantic match), indicating stable semantic similarity |
Reading the BERTScore honestly
A BERTScore IQR of 0.35–0.50 indicates stable semantic similarity, not equivalence. Copilot reliably lands in the right territory for a field; it does not reliably produce the exact statement an expert curator would write. That is precisely why the human review step exists — and why the reported number is worth stating plainly rather than glossing.
Where humans stay in the loop
Copilot drafts; a person decides. In practice the review effort concentrates in predictable places:
- Fields the paper never states. Copilot works from the manuscript. If the paper is silent on redundancy reduction between splits (DOME 1.3), the correct output is a gap — and a draft that confidently fills it is the thing you are reviewing for.
- Numbers. Dataset sizes, parameter counts and metric values are worth checking against the source every time.
- Availability fields. URLs, licences and repository links (1.4, 2.8, 3.4, 4.5) need verification that the resource actually exists and is accessible.
- Anything that would change a reader’s judgement. If a field would alter how someone assesses the method, read the paper’s own words for it.
Never deposit an unreviewed annotation
A machine-drafted DOME entry that nobody has checked is worse than no entry:
it looks authoritative and carries the Registry’s credibility. The Registry’s
isAiGenerated flag exists so that provenance is recorded — it is not a
substitute for review.
Sources and further reading
- Try it: https://dome-copilot.ifca.es/ (shared workshop login on the Session Assets page)
- The preprint: Farrell G, Attafi OA, Fragkouli S-C, Heredia I, Fernández Tobías S, Harrison M, Hermjakob H, Jeffryes M, Obregón Ruiz M, Pearce M, Pechlivanis N, López García A, Psomopoulos F, Tosatto SCE. DOME Copilot: Making transparency and reproducibility for artificial intelligence methods simple. bioRxiv, 19 April 2026. doi:10.64898/2026.04.16.718888 1
- Source code: IFCA-Advanced-Computing/dome-copilot
- Technical issues: contact@dome-ml.org
Next: Chapter 4 — Open and Sustainable AI (OSAI)
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Gavin Farrell, Omar Abdelghani Attafi, Styliani-Christina Fragkouli, Ignacio Heredia, Saul Fernández Tobías, Melissa Harrison, Henning Hermjakob, Matt Jeffryes, Marta Obregón Ruiz, Matt Pearce, Nikos Pechlivanis, Alvaro López García, Fotis Psomopoulos, and Silvio C. E. Tosatto. DOME copilot: making transparency and reproducibility for artificial intelligence methods simple. bioRxiv, 2026. Preprint, posted 19 April 2026. doi:10.64898/2026.04.16.718888. ↩↩